3D printing price in Dubai: what moves the number on a quote

Most people who ask us about 3D printing cost in Dubai already have a file open and want one number back. Fair enough. The awkward truth is that the same file can be printed for a small fraction of what it costs finished, and nothing in the geometry changes between those two outcomes. Only the layer height, the supports and the number of hours somebody spends with sandpaper.

We print physical objects here: prototypes, exhibition pieces and art objects, on FDM and SLA, from a 5 cm figure up to constructions of 15 m. Over a few hundred jobs the pattern is consistent. Material is almost always the smallest line. Machine hours matter. Hand hours decide the invoice on anything that has to be looked at rather than tested.

We do not publish rates, and every job gets priced after we have seen the file, a sketch or a photograph. What follows is the mechanics behind that number, so you can see which way your own object pushes it, plus the figures other Dubai bureaus publish openly and what those figures leave out.

What a print quote is actually made of

Four things carry the cost, and they do not carry it equally.

• The plastic or resin, counted by weight, not by how big the object looks.
• Machine time, counted by the hour the printer is occupied and unavailable for anything else.
• Hand time: preparing the file, pulling supports, bonding sections, filling, sanding, priming, painting, test-fitting.
• The schedule. A job that has to run across three machines at once and be sanded through a weekend costs more than the same job with three weeks of runway, because it displaces other work.

Xometry's breakdown of print costing lists the same core inputs from the bureau side: machine time, labour, material waste and equipment depreciation. Sinterit's guide to the factors behind print cost adds the one most clients underestimate, which is that geometry alone can change the bill without a single dimension moving.

Which of the four dominates depends entirely on what the object is for. On a functional prototype that goes into a drawer after somebody checks a clearance, machine hours are the bill. On an exhibition piece that stands under spots, hand hours can run past everything else combined. On a sectioned build measured in metres, the engineering and the assembly are the job and the plastic is almost a rounding error.

Size moves the number faster than people expect

Volume is cubic. That single fact explains most of the surprise in quotes.

A 5 cm cube contains 125 cm³. A 10 cm cube contains 1,000 cm³. Twice the height, eight times the material. Scale a 20 cm figure up to 40 cm and you have not doubled anything except the dimensions on the drawing.

Two other things scale at the same time, in different ways. Surface area goes up with the square of the size, so doubling the height quadruples the amount of surface that has to be sanded, filled and sprayed. Height itself drives the layer count linearly, so a taller object sits on the machine longer even at identical settings. Stack those together and a modest increase in size can turn a comfortable overnight print into a four-day occupation of a machine plus two days of finishing.

There is a hard break as well. Past the build chamber, the object stops being one print and becomes an assembly: split in CAD, printed as parts, keyed, bonded, reinforced and filled. That changes the pricing basis rather than just the amount, and the sectioned builds we describe in what to 3D print for an exhibition stand all go through that route. For costing purposes the short version is that every extra joint brings its own fill, sand and prime cycle, and those cycles are hand hours.

Bounding box is not volume

Almost every first conversation includes a size like "about 30 by 15 by 12 centimetres". That is the bounding box, and it tells us nearly nothing about material. The bounding box of that figure is 5,400 cm³. The actual mesh volume of a human figure inside a box that shape is usually somewhere between a fifth and a third of it, because arms, legs and negative space are air.

Then the object gets hollowed. Large and medium pieces come off the machine as shells, with wall thickness and internal ribbing chosen for how the thing will be handled, not for how strong it could theoretically be. A solid print is a mistake on anything above palm size: more material, far longer on the machine, and heavy enough to be awkward to lift.

Take a 25 cm figure through that chain. Mesh volume around 800 cm³ solid. Printed hollow at a 2.4 mm wall with light internal infill, it typically uses 180 to 220 cm³ of plastic, which in PLA at roughly 1.24 g/cm³ comes out around 230 to 270 grams. Anyone can get this number themselves: drop the file into a slicer, set a wall thickness, and it will report grams and hours before you commit to anything.

Send us the file and we run exactly that. Guessing from a bounding box is how quotes end up wrong in both directions.

The published numbers for 3D printing cost in Dubai, and what they leave out

Some Dubai bureaus publish per-gram rates. Orbit3D lists 3D printing cost in Dubai from around AED 0.13 per gram for FDM plastics like PLA, ABS and PETG, quoting a typical market band of AED 0.13 to 0.30 per gram with machine time from AED 50 per hour, and SLA resin from about AED 0.50 per gram with machine time from AED 100 per hour. Those are their published figures, not ours, and they are a useful sanity check on the order of magnitude.

Now put them against the figure from the previous section. At the low end of that published band, 250 grams of PLA is worth less than one hour of published machine time. That same figure, printed hollow at 0.2 mm layers, typically occupies a machine for twenty to thirty hours.

This is why a per-gram rate answers almost nothing. It is a real number, it is honestly published, and it describes the smallest input in the job. Ask any bureau for a rate per gram and you will learn what their filament costs. Ask what the object will cost finished and you are asking about hours.

We price per project after the file for that reason. Two objects of identical weight, one a test fixture that ships with its support scars still on it and one a display piece sprayed satin to a brand reference, are not close to the same job.

Material: what the choice is really about

Material barely moves the bill through its per-gram price. It moves the bill through failure rate, through how much sanding it demands afterwards, and through whether the part survives where it has to live. What we run and where each option belongs is set out on our materials page; here is the cost logic only.

PLA is the cheapest and the easiest to print well. It holds detail, it stays dimensionally stable on long prints, and it sands nicely. Its glass transition sits around 55 to 60 C, and the inside of a closed van in a Dubai July car park goes well past that. We have seen a PLA piece come out of a vehicle with a visible lean in the neck. Anything that travels in summer, sits behind glass or lives near a window gets specified differently.

PETG is tougher and far more forgiving about heat. It is also hygroscopic, which in this climate is a scheduling issue rather than a theory. A spool that has sat open through a humid week pops and strings on the first layer and lays down weak bonds between layers. We dry spools before long runs, and a drying cycle takes hours that have to exist somewhere in the calendar.

ABS and ASA handle heat and sunlight better and warp more while printing. Warping means failed parts, and a failed 30-hour print is 30 hours of machine time that produced nothing. That risk is part of why a large enclosed-chamber job is not priced like the same geometry in PLA.

Nylon earns its place on functional prototypes with clips, hinges and parts that flex. It also absorbs moisture more aggressively than anything else we run, so it goes from the dryer to the machine and not via a shelf.

SLA resin costs more per gram and often costs less overall on small detailed parts. A resin print comes off with edges and fine relief that FDM cannot reach, and it arrives needing very little sanding. On a 6 cm collectible head, the resin premium is repaid several times over in painting preparation that never has to happen. The trade is that resin is more brittle, build areas are smaller so medium objects get sectioned earlier, and wash and cure add consumables plus their own hours. Resin also has opinions about temperature. Air conditioning aimed at a machine will thicken resin enough to cause failed peels, so we bring it up to working temperature before a long run instead of fighting it halfway through.

Supports and geometry: the cost that is not visible in the model

Overhangs past roughly 45 degrees need something underneath them, and that something is printed plastic you throw away. Protolabs Network puts it plainly in their guide to 3D printing cost: the volume of support material can equal or exceed the volume of the part itself.

Supports charge twice. Once as material and machine time, and again as hand time, because somebody removes them and then repairs the surface they were welded to. On FDM that leaves a rough witness area to sand. On SLA the support tips leave nubs across whatever face they touched, which is why orientation on a resin part is decided by where you are willing to have blemishes.

Orientation is the cheapest lever in the whole process and the one clients never think about. Lay a part one way and it prints in 6 hours with almost no support. Rotate it 40 degrees for a better cosmetic face and it prints in 11 hours with a forest underneath it. Both are correct, depending on which surface matters, and we will say which we would choose and why.

Some geometry is expensive no matter how it is turned: a tall thin neck, a wide flat span with nothing below it, a fully enclosed cavity with no drain hole, decorative detail cut deeper than the nozzle can resolve. Some of it is fixable in the file, and that is the section below.

There is a strength dimension too, and it has a cost tail. FDM parts fail between layers before they fail across them, so a part whose layer lines run across the point where someone will grab it is a breakage waiting to be reprinted. We orient for load first and surface second on anything that gets handled, which sometimes means more support material and more sanding, chosen deliberately.

Layer height and hours on the machine

Layer height is the main dial on print time, and the arithmetic is simple. Going from 0.2 mm to 0.1 mm doubles the number of layers. Going to 0.05 mm quadruples it. Print time does not track that exactly, because each layer carries fixed overhead in travel and retraction, but on a tall object it tracks closely enough that a fine-detail setting turns a one-day print into a three or four day print.

Typical orders of magnitude, and they move with geometry, so treat them as orientation rather than promise. A 5 to 8 cm figure at 0.2 mm on FDM usually runs 2 to 6 hours. A 25 to 30 cm hollow figure at 0.2 mm typically runs a day or more on a single machine. A 1.5 m object printed in sections runs for days across several machines, and machine time is the one stage that does not compress when you add people to the job.

The useful consequence: a coarse layer is free where the surface is going to be filled, sanded and primed anyway, because the primer buries it. A coarse layer is expensive where the layer lines are the finish. Deciding that once, before slicing, is worth more than any negotiation afterwards.

Post-processing: where display work gets expensive

A raw print straight off the bed is perfectly good for a lot of work. Fit checks, clearance checks, a jig, an internal review model, anything that lives in a drawer. Support scars and layer lines cost nothing to leave alone, and we will happily hand you a part exactly like that if that is what it is for.

Display-ready is a different process entirely. Support removal, seam work on every joint, filler, block sanding through progressively finer grits, primer, inspection under a raking light because raking light shows what your eye missed, spot filling, primer again. On an exhibition piece that cycle typically runs three or four times before any colour goes on. Then paint, then clear if the finish needs it. A few pieces finished to that level sit in our gallery.

At the small end, tidying a raw print is half an hour. At the other end, a metre-tall painted object regularly takes more hand hours than it took machine hours. Two forces drive that. Surface area grows with the square of the size, and every section joint on a sectioned object brings its own fill and sand cycle. On a 15 m build, assembly and finishing are the project and the printing is a supply line feeding it.

Stand and gallery lighting is unforgiving in a way workshop lighting is not. Spots raking across a surface make every scratch and shrink mark readable from three metres, and on gloss they add hot reflections that flatten the form. Matte or satin is our default because of that. Gloss goes on when the object imitates something glossy, and then everything underneath has to be a level better, because gloss magnifies whatever is beneath it.

So the single most useful thing you can tell us is the finish level you actually need. "Good enough to check the fit" and "photographed on a stand" are different prices for the same file, and the gap between them is larger than the gap between two materials.

What set the price on recent work

A functional prototype: an enclosure around 180 mm long, PETG, two iterations a week apart, 0.2 mm layers, roughly seven hours on the machine each time. Threaded inserts installed, support witness marks left exactly as they came off. What set the price was machine hours and the second iteration. Finishing was close to zero, because the client needed to test a board fit and a cable route, not look at it.

An exhibition object: a brand form at about 1.4 m, printed in nine sections over several days across more than one machine, aluminium profile frame inside with bonded plates, keyed joints, four primer and sanding cycles, sprayed satin to a supplied reference, then dry-assembled in the workshop and marked up before crating. Printing was maybe a third of the calendar and a much smaller share of the labour. What set the price was hand hours, the internal frame and the install date.

A collectible figure: 28 cm, head and hands in SLA for the detail, body core in FDM and hollow, primed and hand-painted. The file needed thickening and hollowing before it could be printed at all, which is preparation time that has to be counted. What set the price was the painting, with the SLA parts second. The resin premium on those small parts saved more sanding than it cost.

What you can change to pay less

• Send the finished size with the file. Most quoting confusion starts with a scale we had to guess.
• Let the object be hollow, and tell us how it will be handled so the wall thickness can be chosen rather than defaulted.
• Accept a coarser layer height anywhere the surface is getting primed and painted.
• Ask for a split, or accept ours. A well-placed cut can remove most of the support material from a job.
• Replace deep fillets under horizontal faces with chamfers where the design allows, since a chamfer at a printable angle often needs no support at all.
• Drop decoration nobody will see: interior detail inside a closed shell, relief under a base, text on a hidden face.
• Batch. Several parts on one plate in one run share machine time, and a repeat part costs what the first one did, with no tooling anywhere in the picture.
• Give the calendar room. Rush work means parallel machines and finishing outside normal hours, and both show up in the number.
• Name the finish level honestly. Paying for display finish on a part that goes into a drawer is the most common way money gets wasted on print jobs.

File preparation itself is worth doing properly, since a mesh with holes, flipped normals or walls too thin to print becomes repair time before anything starts. The route from a file to a part, including that repair stage, is laid out in how a design file becomes a 3D printed prototype.

Sending us something to price

STEP, STL, OBJ or 3MF all work. A dimensioned sketch works. For an enlargement, a photograph of the real object with the scale factor you want is enough to start, and for a logo a vector of the mark will do.

Along with the geometry, four things let us answer properly rather than in ranges: the finished size, where the object will live and whether that means heat, sunlight or visitors' hands, the finish level, and the date it has to exist. Quantity too, if there is more than one.

Send it through the contact form or WhatsApp and we will come back with what the job involves and what it costs. Every project is quoted individually, because the drivers are volume, hours on the machine, hours of hand finishing, whether there is a frame inside it and how much runway is left.

FAQ

What affects the cost of a 3D printed part the most?

Hours, in two forms. Machine hours, which are driven by volume, height and layer height, and hand hours, which are driven by supports, joints and how good the surface has to look. Material by weight is real but usually the smallest of the inputs. Xometry and Sinterit both list the same core set from the bureau side, and it matches what we see: machine time, labour, material and the geometry that dictates both. The single biggest swing on any given file is the finish level you ask for.

Why does doubling the size cost so much more than double?

Because volume is cubic and surface area is square. Twice the height means eight times the material, four times the surface to sand and paint, and proportionally more layers to print. Past the build chamber the object also stops being a print and becomes an assembly with joints, keys, an internal frame and a fill and prime cycle at every seam. That is a different kind of job, not a bigger version of the same one.

Which material is cheapest, and is FDM always cheaper than SLA?

PLA on FDM is usually the cheapest to print and the easiest to print reliably, which is why form checks and shop mockups tend to live there. Published Dubai rates put FDM plastics well under resin per gram, with Orbit3D quoting from AED 0.13 per gram for FDM against about AED 0.50 for SLA resin, and higher machine rates on resin too. On small detailed parts that per-gram gap often does not decide the job, because a resin part arrives needing very little sanding and an FDM part of the same shape needs hours of it. Cheapest per gram and cheapest finished are different questions.

How much does finishing add on top of the print?

Anything from half an hour of tidying to more hours than the printing took. A raw part with its support marks left on is the cheapest thing we can hand you. A painted display piece goes through filler, block sanding through several grits, three or four primer cycles with inspection under raking light, then colour. On large sectioned work that finishing stage regularly outweighs the print entirely, which is why we ask up front whether the object is going to be tested or looked at.

How long does a print take, and does the time change the price?

Machine time is a cost line, so yes. As orientation, a small figure of 5 to 8 cm at 0.2 mm typically runs a few hours, a 25 to 30 cm hollow figure typically runs a day or more, and a metre-plus object in sections runs for days across several machines. Layer height is the main dial: 0.2 mm down to 0.1 mm doubles the layer count, and 0.05 mm quadruples it. Adding people does not shorten machine time, which is why the delivery date is easier to hit when the conversation starts early rather than the week before an install.